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3,370 results for “jumping”
Diffusion jump structures for H, N and O atoms
<p>Structures of minima and TSs or directly entire minimum energy paths for diffusion jumps of H, N and O atoms on water clusters. </p>
Figure 11 in Notes on biology of the ant-mimicking jumping spider Myrmarachne plataleoides (Araneae: Salticidae: Astioida) in south Asia
Figure 11. Sequential photographs showing the defence by this female Myrmarachne plataleoides. 1-2, As the defending female approached, the attacking Cheiracanthium was biting through the silk layers of one of the nests. 4-5, After the attacker was driven away, the defending female looked for it, and followed it with legs I raised.
Figure 2 in Some anomalies in the development of jumping spider eyes (Araneae: Salticidae)
Figure 2. Similar ocular anomalies in a salticid (1-4) and lycosid (5-6) spider. 1-4, Salticid photographed in Mililani Mauka, Oahu, Hawaii (8 AUG 2017). 5-6, Lycosid photographed by the author (12 JUL 2013, Greenville County, South Carolina). Photo credits: 1-4, © Lowell Tyler, used with permission.
Figure 1 in Some anomalies in the development of jumping spider eyes (Araneae: Salticidae)
Figure 1. Some ocular deformations of salticids (1-2) and a lycosid (3). 1, Deformation photographed by Weng Keong Liew for a tropical salticid from southeast Asia, perhaps Cytaea. 2, Conjoining deformation of the primary eyes (AME) of a salticid photographed by Lowell Tyler in Mililani Mauka, Oahu, Hawaii (8 AUG 2017) This spider is also shown in Figure 2: 1-4. 3, Conjoining deformation of primary eyes (center, bottom row) and much larger medial secondary eyes (PME or MLE) of a lycosid spider photographed by the author (12 JUL 2013, Greenville County, South Carolina). This spider is also shown in Figure 2: 5-6.
Fig. 93 in An overview of the jumping spiders of Lesotho (Araneae: Salticidae), with descriptions of six new species
Fig. 93. Distribution of Salticidae from Lesotho.
Fig. 48 in An overview of the jumping spiders of Lesotho (Araneae: Salticidae), with descriptions of six new species
Fig. 48. Distribution of Salticidae from Lesotho.
Ecology, sexual dimorphism, and jumping evolution in anurans
<p>Sexual dimorphism is a common feature of animals, and selection for sexually dimorphic traits may affect both functional morphological traits and organismal performance. Trait evolution through natural selection can also vary across environments. However, whether the evolution of organismal performance is distinct between the sexes is rarely tested in a phylogenetic comparative context. Anurans commonly exhibit sexual size dimorphism, which may affect jumping performance given the effects of body size on locomotion. They also live in a wide variety of microhabitats. Yet the relationships among dimorphism, performance, and ecology remain underexamined in anurans. Here, we explore relationships between microhabitat use, body size, and jumping performance in males and females to determine the drivers of dimorphic patterns in jumping performance. Using methods for predicting jumping performance through anatomical measurements, we describe how fecundity selection and natural selection associated with body size and microhabitat have likely shaped female jumping performance. We found that the magnitude of sexual size dimorphism (where females are about 14% larger than males) was much lower than dimorphism in muscle volume, where females had 42% more muscle than males (after accounting for body size). Despite these sometimes-large averages, phylogenetic t-tests failed to show statistical significance of sexual dimorphism for any variable, indicating sexually dimorphic species tend to be closely related. While sexual dimorphism of jumping performance did not vary among microhabitats, we found female jumping velocity and energy differed across microhabitats. Overall, our findings indicate that differences in sex-specific reproductive roles, size, jumping-related morphology, and performance are all important determinants in how selection has led to the incredible ecophenotypic diversity in anurans.</p>
Figs 222, 223 in New species and new records of jumping spiders (Araneae: Salticidae) from central South Africa
Figs 222, 223. Thyene thyenoides: (ƻƻƻ) HSLJ\QH; (ƻƻ) LQWHUQDO VWUXFWXUH RI HSLJ\QH, GRUVDO YLHZ.
Fig. 93 in New species and new records of jumping spiders (Araneae: Salticidae) from central South Africa
Fig. 93. Distribution of /DQJRQD KLUVXWD sp. n. (circles) and L. lotzi sp. n. (square).
Figures 13–17. Psecas pulchra Badcock, 1932 in One step forward and two steps back: on three jumping spiders described by H. D. Badcock deposited in the Natural History Museum, London, and two species newly recorded for Argentina (Araneae: Salticidae)
Figures 13–17. Psecas pulchra Badcock, 1932 (= junior synonym of Psecas chapoda (G. W. Peckham & E. G. Peckham, 1894) syn. nov.) holotype male (BMNH 1932.9.2.68). 13, Habitus,
Figure 2 in First record for the jumping spider Thorelliola ensifera in Vietnam (Araneae: Salticidae: Euophryini: Australphryni)
Figure 2. Known distribution of Thorelliola species in tropical southeast Asia and islands of the southwestern Pacific (detail in A). Numbered localities are referenced in Table 1; locality (18) represents our new discovery of this species in Ben Tre Province, Vietnam. Unnumbered localities (white circles) correspond to confirmed records for T. ensifera posted on iNaturalist. With the exception of the widely distributed T. ensifera, each species in this genus appears to be subject to narrow endemicism, with the greatest diversity in tropical Australasia (Sahul) or New Guinea (Papua). The lack of records from most of New Guinea suggests that many more species remain to be found in that place. Four species are known from the transition zone of Wallacea. Thorelliola is presently placed in the Australphryni, a predominantly Australasian clade within the Euophryini with a number of genera that have successfully crossed the islands of Wallacea; this clade also includes the well-know peacock spiders (Maratus), endemic to Australia (Hill 2010, 2022).
Figure 1 in First record for the jumping spider Thorelliola ensifera in Vietnam (Araneae: Salticidae: Euophryini: Australphryni)
Figure 1. Female Thorelliola ensifera in Ben Tre Province, Vietnam. 1, Orchard habitat. 2-4, Views of living female. 5, Ventral view of female. 6, Detailed ventral view of epigynum.
EFFECT OF VISUAL STIMULI ON THE JUMPING ABILITY OF AMATEUR SOCCER PLAYERS DATA
<p>Data from the study "EFFECT OF VISUAL STIMULI ON THE JUMPING ABILITY OF AMATEUR SOCCER PLAYERS"</p>
Nighttime geomagnetic response to jumps of solar wind dynamic pressure: A possible cause of Québec blackout in March 1989
<p>This contains the original simulation data used by the paper 'Nighttime geomagnetic response to jumps of solar wind dynamic pressure: A possible cause of Québec blackout in March 1989', which will appear in Space Weather. The data were obtained by the global MHD simulation (REPPU).</p> <p>Each sav file (IDL saveset format) contains the physical variables in the ionosphere at each grid point (mlt*mlat: 321*221, starting at 0 MLT and -90 MLAT) for Run 02n, 30n, 30s, 33n, and 33s, including</p> <ul> <li>MHD time series ('time' in minutes),</li> <li>field-aligned current ('fac1' in A/m2),</li> <li>electric potential ('pot' in V),</li> <li>ionospheric conductivities ('ss11', 'ss12', and 'ss22' in S).</li> </ul> <p>The sav file can be opened by IDL. By typing, for example,<br> IDL> restore,'run02n.sav'<br> you can load the file to the memory of IDL. Type 'help' to confirm the variables that are loaded.</p>
Shifting the focus from species to individuals in invasion biology: Individual differences in jumping behaviour
<p>Dataset associated with 'Shifting the focus from species to individuals in invasion biology: Individual differences in jumping behaviour' manuscript.</p>
Figure 11 in Stabilizing selection to maintain the two male forms of the jumping spider Maevia inclemens (Araneae: Salticidae: Marpissina), version 2
Figure 11. Sequential (1-2) views of encounter between the two male forms of Maevia inclemens. Apart from a brief defensive reaction by the grey male (2), no ritual combat ensued and the males did not appear to recognize that they were conspecific.
Figure 9 in Stabilizing selection to maintain the two male forms of the jumping spider Maevia inclemens (Araneae: Salticidae: Marpissina), version 2
Figure 9. Five sequential matings (1-2, 3, 4, 5-6, 7) of the two male forms with the same female Maevia inclemens over the course of five days. 1-2, This mating was interrupted as the male switched from one side to the other, but after an atypical low crawl display with legs I extended, the tufted male quickly recaptured the female and continued to mate on the other side. 5-6, mating on the right and then left sides. Note the many erect spines on the legs of the mating male in each instance.
Figure 10 in Stabilizing selection to maintain the two male forms of the jumping spider Maevia inclemens (Araneae: Salticidae: Marpissina), version 2
Figure 10. Attempted mating by the grey male Maevia inclemens. This sequence shows how the male jumped the female while she was suspended from her dragline, just after capturing a fly (1), and attempted to mate with her (2). The female promptly released her prey, and the male then fed on it for many minutes (3-4), still in a suspended position [23 JUNE 2020 14:09- 14:13]. Three days later this male approached and mated successfully with the female for a second time (Figures 5:1-7, 9:7).
Figure 7 in Stabilizing selection to maintain the two male forms of the jumping spider Maevia inclemens (Araneae: Salticidae: Marpissina), version 2
Figure 7. Sequential positions (1-10) of the tufted male Maevia inclemens as he advanced toward the female in a later mating attempt (after Figure 6).
Figure 3 in Stabilizing selection to maintain the two male forms of the jumping spider Maevia inclemens (Araneae: Salticidae: Marpissina), version 2
Figure 3. Adult male Maevia inclemens, tufted (black) form. The tufts of the dorsal carapace may not be present in all males of this form. Note the lack of stripes on the uniformly-colored legs. 2, Feeding on mosquito (Diptera: Culicidae).
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.